Sustainable Material Innovations

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  • View profile for Brett Mathews
    Brett Mathews Brett Mathews is an Influencer

    Editor @ Apparel Insider | Editorial, Copywriting

    45,674 followers

    RECYCLING GAME-CHANGER? CHINA SWITCHES ON FIRST FULLY AUTOMATED TEXTILE WASTE SORTING LINE: China has switched on its first fully automated textile-waste sorting line with Databeyond Technology. Using machine vision and hyperspectral imaging, it sorts post-consumer garments by fibre and blend, achieving over 90% purity for polyester, cotton and nylon and flagging elastane blends. The operator says a 15-tonne eight-hour shift that once needed more than 30 workers now runs with four, slashing labour and operating costs. The line is in operation at Zhangjiagang Shanhesheng Environmental Technology Co. Soon after commissioning, Shanhesheng says it received a 200-tonne order for high-purity post-consumer textiles from a global apparel company. A second phase will extend automated sorting to shredded garments and factory offcuts to feed both chemical and biological recyclers. Automated, blend-aware sorting tackles the sector’s key bottleneck between rising collections and the specification-grade inputs recyclers need. It also aligns with China’s push on textile circularity, which aims to expand recycling capacity, recycle roughly a quarter of textile waste, and produce millions of tonnes of recycled fibre. Apparel Insider Insider story in comments.

  • View profile for Irina Chertkova

    Occupancy Planner | AutoCAD Technician | CAFM Technician | Data Analyst| CAD Operator

    4,696 followers

    Mexico made plastic from cactus — and it disappears like a leaf in the dirt In a small lab in Guadalajara, surrounded by desert succulents and the sharp scent of green nopal, Mexican chemical engineer Sandra Pascoe Ortiz has done something that could rewrite the future of packaging. She has created plastic — not from oil, but from cactus juice. And when it’s tossed into the soil, it vanishes like a fallen leaf in the rain. The key ingredient? The common prickly pear cactus, known as “nopal” in Mexico — a plant so abundant it’s found in gardens, fields, even on dinner plates. Ortiz’s breakthrough lies in extracting the viscous, sticky juice from its thick green pads and turning it into a polymer film that mimics the flexibility and strength of plastic — without any of the toxins or environmental cost. What sets this cactus plastic apart isn’t just that it’s plant-based — it’s how fast it disappears. In regular garden soil, it biodegrades in just 2 to 3 months. In water, it dissolves in less than a week. No microplastics. No residues. No landfill centuries. The material is also edible and non-toxic, making it safe for wildlife and ocean life alike — a vital factor in a planet drowning in plastic waste. Even more impressive, the process doesn’t harm the cactus. Only mature leaves are trimmed, allowing the plant to regenerate naturally. The juice is mixed with glycerin, natural waxes, and proteins, then poured into molds and dried — no synthetic chemicals, no industrial waste. It’s low-energy, low-cost, and perfectly tailored to the arid Mexican climate. Today, Ortiz’s cactus plastic is being prototyped for use in bags, packaging, and even edible wrappers. In rural markets and coastal towns where plastic pollution is devastating ecosystems, the cactus could become more than a crop — it could be the future of circular design. Mexico’s deserts may have just handed us the solution to a global crisis — one green paddle at a time. #invention #design #renovation

  • View profile for Ollie Potter

    Senior Strategy Manager @ Monitor Deloitte | Founder @ TNTM

    37,469 followers

    This lady builds walls from 300kg of recycled clothes 🧱 (Major brands are hyped) ... across fashion and construction Clarisse Merlet was sat in an architecture class. She was struck by the construction industries: 1. High resource consumption 2. Large % of global emissions 3. Growing waste management challenges She noticed another pressing problem: Fashion was sending millions of tons of clothing to landfills each year. That's when it clicked. Working from her student apartment, Clarisse started experimenting: Shredding old clothes. Testing different compression techniques. Most people were skeptical. But after hundreds of trials... she created her first successful brick. That's when FabBRICK was born. The concept proved brilliantly simple: Take unwanted textiles - from factory leftovers to last season's rejects - and transform them into building blocks. The results? One wall alone saved 300kg of clothes from landfills. That's equivalent to thousands of t-shirts. Now major companies are lining up: They send their textile waste, employee donations, and rejected stock. In return, they get: a) Sustainable office furniture b) Unique store displays c) Eye-catching interior walls The most beautiful part? Workers can donate their old clothes and months later sit at a desk made from them. It's a perfect circle: 1. Fashion waste finds new life 2. Buildings become more sustainable 3. Companies reduce their footprint 4. Employees become part of the solution Sometimes the best solutions don't come from big labs... ...they come from one person asking: "What if?" Would you have one in your home? - - - ♻️ Follow me for daily insights on ClimateTech and Finance

  • View profile for Pascal BORNET

    #1 Top Voice in AI & Automation | Award-Winning Expert | Best-Selling Author | Recognized Keynote Speaker | Agentic AI Pioneer | Forbes Tech Council | 2M+ Followers ✔️

    1,529,870 followers

    🌊 Japanese scientists just created plastic that knows when to disappear. This discovery stopped me in my tracks - not because it’s another “eco-friendly” claim, but because it truly rewrites the rules of chemistry and sustainability. Researchers at RIKEN and the University of Tokyo have developed a new plastic that completely dissolves in seawater within hours — no microplastics, no residue, no pollution. What makes it extraordinary: → Dissolves in 1–3 hours when exposed to saltwater → Leaves zero microplastic fragments → Breakdown products feed ocean bacteria → Returns safely to the ecosystem Imagine packaging that vanishes if it escapes waste systems, fishing nets that disappear instead of strangling marine life, or six-pack rings that dissolve before doing harm. For decades, we’ve created materials that never leave the planet. Now, we’ve built one intelligent enough to know when to go. Could this be the invention that finally ends the plastic crisis? #AI #Innovation #Sustainability #CleanTech #FutureOfWork #OceanConservation

  • View profile for Harshad Shah

    Chartered Accountant

    55,973 followers

    *New Plastic that can dissolve in Sea waters & Recyclecable* Scientists in Japan have created a new type of plastic that could help solve the plastic pollution problem. This plastic, made by RIKEN and the University of Tokyo, can dissolve completely in seawater within a few hours and break down in soil in just 10 days. It doesn’t leave behind harmful microplastics and even releases helpful nutrients into the soil as it breaks down. Plus, it’s food-safe and recyclable, which means it can be used again instead of becoming waste. This new material could change the way we use plastic in packaging, farming, and medicine. It’s strong enough to be useful but gentle on the environment. Since it breaks down naturally and doesn’t pollute the land or ocean, it could reduce landfill waste, protect sea life, and help grow healthier crops. If industries and governments support it, this plastic could be a big step toward a cleaner, greener future. Key features of the new plastic: Biodegradable in seawater: It dissolves in saltwater, preventing the formation of microplastics. Recyclable: The material can be broken down into reusable monomers using specific solvents. Strong and durable: It retains the strength and durability of conventional plastics. Non-toxic and non-flammable: It does not release harmful substances or carbon dioxide during decomposition. Versatile: The material can be customized to create different types of plastics, such as hard, scratch-resistant, or flexible options. Enriches soil: When it decomposes in soil, it provides nutrients like phosphorus and nitrogen. Addresses microplastic pollution: It prevents the formation of harmful microplastics that can accumulate in the ocean and soil.

  • View profile for Harald Friedl

    Circular Economist | Speaker | Impact Reporter | Coach

    132,618 followers

    Plastic can have a 2nd life. ♻️🏭 This is how. 🤔 🇳🇴 Norway is leading the way. I just had the opportunity to visit the world's most advanced plastic recycling facility. Located just outside Oslo, built by TOMRA and Plastretur. If we do sorting & recycling - then this is the way. You enter the building, and feel like a time travel. All is automated. A facility made to close the loop. ➡️ designed to process roughly 80% of Norway’s plastic packaging waste by 2030. ➡️ mixed plastic is scanned by advanced sensors and sorted - instead of being burned. ➡️ then becoming new products. ✅ As a circular economist, for me reduction and redesign always come first. But as long as we use plastics, this is what “responsible” looks like: 1️⃣ Turning a national waste problem into a resource engine. 2️⃣ Creating infrastructure that makes extended producer responsibility real 3️⃣ Freeing municipalities to shift from ‘collect & burn’ to ‘collect & circulate’ Curious what a ‘second life’ pathway for your plastic could look like? #circulareconomy #innovation #zerowaste

  • View profile for Hari S Shekhawat

    Studied at XLRI,Jamshedpur & worked with ITC,American Express,Whirlpool Corporation,Honda Motors at senior leadership roles

    3,669 followers

    Germany has just unveiled one of the most transformative industrial projects in modern history — a steel plant that replaces coal entirely with green hydrogen. Built by Salzgitter AG, this facility eliminates the CO₂-heavy blast furnace process and uses hydrogen-powered direct reduction instead, cutting emissions by more than 95%. For an industry responsible for nearly 8% of global carbon pollution, this marks a massive breakthrough that proves heavy manufacturing can be clean, efficient, and future-ready. What makes this project even more significant is its scalability. If adopted globally, hydrogen-based steelmaking could dramatically lower worldwide emissions, reshape supply chains, and set a new standard for climate-friendly industry. Germany’s success sends a clear message: sustainable steel production is no longer theoretical — it’s here, operating, and ready to inspire the next wave of green industrial revolution. #GreenEnergy #HydrogenRevolution #CleanIndustry #GermanyInnovation #SustainableFuture

  • View profile for Graham Bain

    Principal Analyst | Professional Geoscientist | Connecting the Subsurface to the Energy Transition | My opinions are my own

    23,318 followers

    𝗖𝗵𝗲𝘃𝗿𝗼𝗻 𝗷𝘂𝘀𝘁 𝗾𝘂𝗶𝗲𝘁𝗹𝘆 𝗯𝗲𝗰𝗮𝗺𝗲 𝗼𝗻𝗲 𝗼𝗳 𝘁𝗵𝗲 𝗯𝗶𝗴𝗴𝗲𝘀𝘁 𝗹𝗶𝘁𝗵𝗶𝘂𝗺 𝗮𝗰𝗿𝗲𝗮𝗴𝗲 𝗵𝗼𝗹𝗱𝗲𝗿𝘀 𝗶𝗻 𝘁𝗵𝗲 𝗦𝗺𝗮𝗰𝗸𝗼𝘃𝗲𝗿. Chevron has now secured 135,000 acres of lithium‑bearing brine rights across northeast Texas and southwest Arkansas. The position was built through the acquisition of two leasehold packages from TerraVolta Resources and East Texas Natural Resources, and is explicitly targeted at deploying direct lithium extraction (DLE) on Smackover brines. This move builds on Chevron’s earlier New Energies messaging... Basically Subsurface Innovation! Their plan? leverage subsurface, drilling and brine‑processing capabilities from oil and gas into critical minerals, with a focus on domestic, large‑scale supply. It also puts Chevron directly into a neighborhood of DLE developers.  • ExxonMobil has assembled more than 300,000 net acres of Smackover brine rights in Arkansas and is already producing battery‑grade lithium at a pilot facility.  • Smackover Lithium (Standard Lithium + Equinor JV) is advancing its South West Arkansas project (~30,000 acres of brine leases) with a Definitive Feasibility Study outlining 22,500 t/yr Li₂CO₃ over 20 years, plus a growing position across the state line in East Texas. The Smackover is evolving from a geological curiosity into a bona fide lithium basin, with multiple supermajors and specialists all betting that brine‑hosted lithium + DLE can scale into a serious pillar of the North American battery supply chain.

  • View profile for Lisa Cain

    Transformative Packaging | Sustainability | Design | Innovation | BP&O Author

    45,360 followers

    Fry to Future It takes two kilos of potatoes to make just one kilo of chips. Let that sink in. Between peeling and cooking, half the weight disappears. Water turns to steam. Skins hit the bin... all in the pursuit of the perfect peeled chip. It's a cost baked into fast food. Multiply it globally, and the numbers start to look ugly. But waste doesn't have to be where the story ends. With the right thinking, it can be the start of something better. Innovators are already on it. Take Peel Saver. Created by students Pietro Gaeli, Simone Caronni, and Paolo Stefano Gentile, it turns discarded potato peel into chip cones. No wax, no additives. Just peel, macerated and dried, held together by the starch already in the skin. Packaging made from the very waste of what it holds. And potatoes aren't the only skin in the game. PulpWorks is making Karta-Pack from agricultural scraps. INNOPOM is exploring potato-based bioplastics. Biotrem is turning peel and wheat bran into plates and cutlery that hold up to both heat and rigorous scrutiny. The exciting part isn't just the material science. There's been a clear mindset shift in recent years. What was once considered waste is now being seen as a potential resource. Not a leftover. A starting point, if you will. Partly driven by sustainability, partly by cost-saving. For brands, it's a reminder: your next big packaging idea might already be on the floor. You just need to peel it back. Circular design? Or just starch dressing? 📷Pietro Gaeli , Simone Caronni, and Paolo Stefano Gentile

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